共振纳米簇器件。

J Haglmüller, H Rauter, G Bauer, F Pittner, T Schalkhammer
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引用次数: 2

摘要

表面金属团簇的共振增强吸收(REA)是一种有效的生物光学器件的基础技术。报道了一种由金属镜面、聚合物或玻璃型距离层、生物分子相互作用层和亚单层生物认知结合金属纳米团簇组成的四层器件。实验表明,谐振腔均匀性对吸收最大值有很大影响。层稳定性对器件的整体性能起着重要的作用。提出了在检测中使用REA过程的生物芯片的技术和优化的实验室协议。传感器在光谱的可见和/或红外(IR)部分显示出一到三个窄反射最小值,因此它们不会受到与球形金胶体相关的光谱限制。金属团簇(通过热阶还原合成)以及金属-介电壳团簇(通过各种壳沉积工艺合成)用于精确地将器件的读数移至可见和近红外范围内的任何频率。一次性单步蛋白质芯片,DNA分析以及复杂的生物芯片阵列建立,使用各种DNA,抗原-抗体和蛋白-蛋白相互作用系统。
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Resonant nano-cluster devices.

The resonance-enhanced absorption (REA) by metal clusters on a surface is an effective technique on which to base bio-optical devices. A four-layer device consisting of a metal mirror, a polymer or glass-type distance layer, a biomolecule interaction layer and a sub-monolayer of biorecognitively bound metal nano-clusters is reported. Experiments indicate a strong influence of the resonator homogeneity on the absorption maximum. Layer stability plays an important role in the overall performance of the device. Techniques and optimised lab protocols to set up biochips that use the REA process in the detection are presented. The sensors show one to three narrow reflection minima in the visible and or infra-red (IR) part of the spectrum and therefore they do not suffer from the spectral limitations associated with spherical gold colloids. Metal clusters (synthesised by thermal step reduction) as well as metal- dielectric shell clusters (synthesised by various shell deposition processes) are used to precisely shift the readout of the device to any frequency in the visible and near IR range. Disposable single-step protein chips, DNA assays as well as complex biochip arrays are established that use various DNARNA, antigen-antibody and protein-protein interaction systems.

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